10100/2/1 Honeywell Horizontal Bus Driver Module

Configured for horizontal bus communication routing and rack interconnection, the Honeywell 10100/2/1 (10100/2/1 Horizontal Bus Driver) provides direct physical/electrical execution across industrial system backplanes. It manages backplane signal transmission at 5 VDC, ensuring synchronized data exchange and voltage stability across connected system modules.

Hardware Specifications

Channel-to-Channel Isolation And CJC Implementation

Operating within process control and industrial automation frameworks, the module maintains rigorous signal integrity across bus segments by managing electrical noise suppression and controlling ripple content below 50 mV p-p. Backplane communication interfaces ensure deterministic data transfer speeds, while integrated isolation boundaries protect internal logic circuits from common-mode transients. Furthermore, terminal designs maintain precision measurement baselines, supporting stable analog and digital reference signals across extended rack configurations.

Frequently Asked Questions

Q: Does the 10100/2/1 module support hot-swapping while the rack is powered?

A: Hot-swapping is restricted; power must be completely removed from the rack backplane prior to inserting or extracting the bus driver module to prevent bus contention or backplane logic corruption.

Q: How does the cable configuration affect the power consumption of the module?

A: The current draw varies depending on the attached cable type, requiring 35 mA at 5 VDC when paired with A1 or A21 cables, and increasing to 65 mA at 5 VDC when utilizing the A22 cable configuration.

Field Installation Guidelines

1. Ensure all rack backplane power is switched off before handling or installing the module.
2. Insert the module evenly into the designated 4 HP, 3U rack slot, aligning the card edge connectors carefully with the backplane bus socket.
3. Secure the module front panel using mounting screws to maintain proper mechanical stability and earth grounding continuity through the chassis.
4. Verify that supply voltage remains at 5 VDC with ripple content strictly below 50 mV p-p prior to system energization.